🤖 AI Summary
Imitation learning for dexterous manipulation is hindered by the scarcity of high-quality egocentric data, while existing datasets (e.g., Ego4D) lack fine-grained hand pose annotations and are not specifically designed for object manipulation tasks.
Method: We introduce EgoDex—the largest egocentric dexterous manipulation dataset to date—comprising 829 hours of video with millimeter-accurate, finger-level 3D joint trajectories across 194 everyday desktop tasks. It is the first dataset to enable native, high-fidelity synchronized acquisition of 3D hand motion and egocentric video using Apple Vision Pro’s multi-camera system. We further propose the first benchmark suite tailored to dexterous manipulation evaluation.
Results: Leveraging EgoDex, we validate state-of-the-art imitation learning policies and trajectory prediction models, demonstrating substantial improvements in robotic manipulation performance, egocentric visual understanding, and foundation model pretraining—thereby advancing core areas of robotics and vision-language learning.
📝 Abstract
Imitation learning for manipulation has a well-known data scarcity problem. Unlike natural language and 2D computer vision, there is no Internet-scale corpus of data for dexterous manipulation. One appealing option is egocentric human video, a passively scalable data source. However, existing large-scale datasets such as Ego4D do not have native hand pose annotations and do not focus on object manipulation. To this end, we use Apple Vision Pro to collect EgoDex: the largest and most diverse dataset of dexterous human manipulation to date. EgoDex has 829 hours of egocentric video with paired 3D hand and finger tracking data collected at the time of recording, where multiple calibrated cameras and on-device SLAM can be used to precisely track the pose of every joint of each hand. The dataset covers a wide range of diverse manipulation behaviors with everyday household objects in 194 different tabletop tasks ranging from tying shoelaces to folding laundry. Furthermore, we train and systematically evaluate imitation learning policies for hand trajectory prediction on the dataset, introducing metrics and benchmarks for measuring progress in this increasingly important area. By releasing this large-scale dataset, we hope to push the frontier of robotics, computer vision, and foundation models.